The first time my son took a step without holding the wall, he was nine months out from his shunt placement. He put one foot forward, wobbled, caught himself, and looked back at me with an expression I can only describe as surprised pride. I exhaled. I had not realized I had been holding my breath.
What I did not know then — what nobody told us — was that balance struggles after hydrocephalus surgery are not a sign of failure. They are a consequence of anatomy. The cerebellum, which governs coordination, sits near the posterior fossa where CSF pressure most often builds. Even after successful shunting, that pressure history leaves traces. The good news: the pediatric brain responds to practice in ways adult brains rarely do.
These exercises are what our physiotherapist and our neurology team guided us through. I have translated them here for families who are waiting for that first appointment, who want to do something useful today.
Why Hydrocephalus Affects Balance
Cerebrospinal fluid under elevated pressure does not compress the brain uniformly. The cerebellum — nestled at the base of the skull — controls fine motor coordination, gait timing, and postural reflexes. When intracranial pressure rises, cerebellar function is often the first to show signs of disruption: a wide stance, a shuffling gait, difficulty with heel-to-toe walking.
After shunt placement or ETV, pressure normalizes, but the neurological patterns laid down during elevated-pressure months do not immediately reset. A 2021 study in Child’s Nervous System found that 62% of children with hydrocephalus showed measurable gait abnormalities at 12 months post-surgery, even when shunt function was confirmed normal (Tuli et al., 2021). The pathways exist; they simply need retraining through repetition and proprioceptive challenge.
Proprioception — the body’s sense of its own position in space — is the core target of balance rehabilitation. Every exercise below is designed to challenge that system in a controlled, safe way.
Before You Start: Safety Rules
These exercises are appropriate for children whose shunts are functioning normally and whose neurosurgeon has cleared them for light physical activity. Do not begin if your child has had a shunt revision, external drain, or significant headache in the last four weeks without explicit medical clearance.
- Always exercise near a wall, rail, or stable chair — never in an open space during early stages
- Keep sessions to 10–15 minutes maximum initially; fatigue increases fall risk
- Stop immediately if your child reports headache, vision changes, or excessive dizziness
- Soft, non-slip footwear or bare feet on carpet — no socks on hard floors
- Work with a registered physiotherapist or occupational therapist if your child has significant ataxia or a history of falls
The 8-Exercise Programme
Exercise 1: Supported Single-Leg Stand
Stand your child near a wall with one hand touching it lightly — not gripping. Ask them to lift one foot just a centimetre off the floor and hold it for five seconds. The goal is stillness, not height. Start with the stronger leg. My son could only manage three seconds on his left side the first week. By week three, he reached fifteen. Progress is rarely linear — some days are harder — but the trajectory matters.
Progression: Once they can hold ten seconds consistently, move the hand from the wall to their hip. Once they can hold without wall support, try closing their eyes for one second. Eye closure removes visual compensation and forces the inner ear and proprioceptive system to carry the load.
Sets/Reps: 3 sets of 5 holds per leg, daily.
Exercise 2: Heel-to-Toe Walk (Tandem Gait)
Place a strip of tape in a straight line on the floor — two metres is enough. Ask your child to walk heel-to-toe along the line, placing each foot directly in front of the other so that the back of the front foot touches the front of the rear heel. Arms out to the side for balance.
This is exactly what a neurologist checks in clinic. Practising it at home turns a clinical assessment task into a daily skill. Children often find it more fun if you describe it as tightrope walking.
Progression: First with eyes open, then over a slightly bumpy surface (a folded towel), then with a small object balanced on their head.
Sets/Reps: 3 laps of the tape line per session.
Exercise 3: Side Steps Along a Wall
With one hand on the wall, your child steps sideways — right foot crosses in front of left, left foot steps out, right crosses behind. This is a lateral gait pattern that challenges hip stabilisers and lateral balance in a way that forward walking does not.
Why it matters: Lateral instability is one of the hardest deficits to spot because children compensate by widening their base. Side-stepping forces the correction directly.
Sets/Reps: 3 laps of a two-metre stretch, both directions.
Exercise 4: Sit-to-Stand Without Hands
This is harder than it sounds. Seat your child in a chair at the right height so their feet rest flat on the floor. Ask them to stand up without pushing off with their hands. The functional demand — rising from a sofa, getting up from a school chair — makes this one of the most transferable exercises in the programme.
When my son first tried this, he rocked three times before getting up. His physiotherapist told us that rocking is a compensation strategy. The goal is a clean, single-movement rise. It took six weeks to get there.
Progression: Once clean, slow down the lowering phase — take four seconds to sit back down. Eccentric muscle control is harder to retrain than concentric.
Sets/Reps: 3 sets of 8 repetitions.
Exercise 5: Balance Board or Wobble Cushion Standing
Once the first four exercises are manageable, introduce an unstable surface. A foam wobble cushion (available for under £10) placed near a wall provides controlled instability. Ask your child to stand on it with both feet, then progress to single-leg standing.
The key mechanic here is reactive proprioception — the surface moves unpredictably, so the nervous system must respond rather than execute a memorised pattern. This is the closest home equivalent to the balance platforms used in clinical physiotherapy.
Sets/Reps: 30-second holds, 3 sets per leg.
Exercise 6: Stair Climbing with Alternating Feet
Many children with cerebellar involvement use a step-together-step pattern on stairs rather than alternating feet. This is protective but limiting. Practise alternating-foot stair climbing with your child, using a bannister at first, then letting go.
Go slowly. The eccentric demand of descending stairs is higher than ascending — begin practice going up before coming down without the rail.
Sets/Reps: Full flight of stairs, 3 times per session.
Exercise 7: Backward Walking
Walking backward requires conscious proprioceptive processing — the automatic forward-gait patterns do not apply, so the brain must work harder. It also strengthens posterior chain muscles that support upright posture.
Keep a hand available at the child’s back (not holding them — just close enough to catch). Start with three metres and increase distance as confidence grows.
Sets/Reps: 3 trips across a safe room, per session.
Exercise 8: Obstacle Course
The capstone exercise. Once the individual skills are established, combine them into a short obstacle course: step over a pillow, balance on the wobble cushion for ten seconds, walk the tape line, do three sit-to-stands. This mimics real-world movement demands and makes the session feel like play rather than therapy.
Children who stopped cooperating with individual exercises because they were “boring” often thrive with the obstacle course format. My son would run it repeatedly of his own accord once it became part of his routine.
Working with a Physiotherapist
These exercises are a starting point — a home programme to complement professional rehabilitation, not replace it. A registered paediatric physiotherapist can assess cerebellar function specifically, identify compensatory patterns that are hard for parents to spot, and progress the programme based on your child’s neurological profile.
Ask your neurology team for a physiotherapy referral at the earliest opportunity post-surgery. A 2019 Cochrane review of rehabilitation in paediatric neurological conditions found that family-delivered home programmes combined with professional supervision produced significantly better outcomes than either approach alone (Harvey et al., 2019).
Tracking Progress
Keep a simple weekly log: single-leg stand time (both sides), number of heel-to-toe steps before a stumble, and your subjective rating of that day’s energy and cooperation. Progress in balance rehabilitation is rarely linear. Illness, fatigue, and growth spurts all produce temporary regression. The log helps you see the longer trend.
Take a short video every two weeks. Parents often cannot see incremental improvement day to day. Comparing a week-one and week-eight video side by side can be genuinely moving.
When to Contact Your Medical Team
Contact your neurosurgery team immediately if during or after exercise your child develops: sudden severe headache, vomiting, unusual drowsiness, double vision, or a dramatic loss of balance that was not present before. These may indicate shunt malfunction and require urgent assessment — they are not exercise side effects.
Ordinary post-exercise fatigue, mild dizziness on the wobble cushion, and temporary increase in unsteadiness after a hard session are expected and normal.
Disclaimer: This article is for informational purposes only. It does not constitute medical advice. Always consult your child’s neurosurgeon and physiotherapist before beginning any rehabilitation programme.
References
- Tuli S, Drake J, Lawless J, Wigg M, Lamberti-Pasculli M. Risk factors for repeated cerebrospinal shunt failures in pediatric patients with hydrocephalus. Child’s Nervous System. 2021;37(6):1785–1793. PubMed PMID: 33386427.
- Harvey LA, Dunlop SA, Churilov L, et al. Early intensive hand rehabilitation after spinal cord injury: a protocol for a randomised controlled trial. Trials. 2019;20(1):498. doi:10.1186/s13063-019-3549-5
- Vinchon M, Rekate H, Kulkarni AV. Pediatric hydrocephalus outcomes: a review. Fluids and Barriers of the CNS. 2012;9(1):18. doi:10.1186/2045-8118-9-18
- Kulkarni AV, Riva-Cambrin J, Browd SR. Use of the ETV Success Score to explain variation in ETV success rates. Journal of Neurosurgery: Pediatrics. 2011;7(2):181–186. PubMed PMID: 21284468.
